690 Students
Electric circuits are the foundation of modern electrical engineering and electronics, powering everything from household devices to advanced communication systems across Canada’s growing technology and engineering sectors. This course introduces the core principles of circuit theory and practical electronic concepts used in real-world electrical systems. Designed for beginners, students, and aspiring technicians, this course explores direct current (DC) circuits, circuit …
Electric circuits are the foundation of modern electrical engineering and electronics, powering everything from household devices to advanced communication systems across Canada’s growing technology and engineering sectors. This course introduces the core principles of circuit theory and practical electronic concepts used in real-world electrical systems.
Designed for beginners, students, and aspiring technicians, this course explores direct current (DC) circuits, circuit analysis methods, energy storage components, and transient behaviour in electrical systems. Learners can apply this knowledge in engineering support roles, electronics maintenance, renewable energy systems, automation industries, and technical service environments throughout Canada.
Study online at your own pace and gain a recognised certification that supports your technical development. Build a strong foundation in circuit analysis, improve your understanding of electronic systems, and take the first step toward a career in electrical and electronics-related fields.
Please note: This Electric Circuits for Electrical Engineering and Electronics Course only gives you the theoretical knowledge that you need to excel in this field. This Course doesn’t entitle you to practise as a professional in this specific field.
This course is ideal for:
dAll of our courses, including this Electric Circuits for Electrical Engineering and Electronics, are fully accredited, providing you with up-to-date skills and knowledge and helping you to become more competent and effective in your chosen field.
All of our courses are accredited by the CPD Quality Standards as conforming to universally accepted Continuing Professional Development (CPD) guidelines.
The Quality Licence Scheme (QLS) is a trusted endorsement framework that certifies high-quality, non-regulated training programmes across various sectors.
The Association of Healthcare Trainers (AoHT) promotes high-quality healthcare training, supporting providers to deliver relevant, industry-aligned education and improve professional standards.
Once you’ve successfully completed your course, you will immediately be sent a digital certificate. Also, you can have your printed certificate delivered by post (shipping cost CA$9.99). All of our courses are fully accredited, providing you with up-to-date skills and knowledge and helping you to become more competent and effective in your chosen field.
Start by exploring what electric circuits are and how they form the basis of all electronic systems. This module introduces key components, basic concepts, and how electrical energy is controlled and used in circuits.
Understand how electrical energy is supplied within circuits. This section explains voltage and current sources, their behaviour, and how they influence circuit performance in different conditions.
Focus on direct current circuits made up of resistors. Learn how current flows, how resistance affects circuits, and how simple DC networks are analysed in engineering applications.
Discover a systematic method for solving complex circuits using node voltage techniques. This module helps simplify circuit analysis using structured mathematical approaches.
Explore mesh or loop analysis methods used to calculate unknown values in electrical circuits. Learn how closed-loop systems are evaluated in engineering design.
Build on earlier concepts by exploring more advanced methods used to solve complex circuit networks. This includes combination techniques for efficient problem-solving.
Understand how capacitors store and release electrical energy. Learn their role in filtering, timing circuits, and electronic system design.
Explore inductors and their behaviour in electrical circuits. This module explains magnetic energy storage and applications in power and signal systems.
Examine how circuits respond to changes over time. Learn about charging and discharging behaviour in capacitors and inductors and how transient responses are analysed.
An electric circuit is a closed path through which electric current flows, powering devices and systems used in homes, industries, and electronic applications.
You will learn DC circuit analysis, resistive networks, nodal and loop methods, capacitors, inductors, and transient circuit behaviour.
Yes. The course is designed for learners with no prior electrical engineering experience and introduces concepts step by step.
Electric circuits are essential for designing and operating all electronic devices, from simple gadgets to complex industrial systems.
Yes. It provides foundational knowledge useful for entry-level roles in electrical, electronics, and technical support fields.
Basic mathematical understanding is helpful, especially for circuit calculations and analysis techniques.
| Introduction to Electric Circuits and Electronics | |||
| Definition of Electric Circuit | 00:03:00 | ||
| Electric Charge and Electric Current | 00:03:00 | ||
| Alternating Current (AC) Vs Direct Current (DC) | 00:02:00 | ||
| Definition of Voltage | 00:02:00 | ||
| Electrical Energy and Voltage | 00:02:00 | ||
| Definition of Power | 00:02:00 | ||
| Quiz 1 Solutions | 00:02:00 | ||
| Sources in Electric Circuits and Electronics | |||
| Independent Sources | 00:02:00 | ||
| Example – Independent Sources | 00:04:00 | ||
| Dependent Sources | 00:03:00 | ||
| Example – Dependent Sources | 00:03:00 | ||
| DC Resistive Electric Circuits | |||
| Ohm’s Law | 00:07:00 | ||
| Example – Ohm’s Law (1 of 2) | 00:03:00 | ||
| Example – Ohm’s Law (2 of 2) | 00:03:00 | ||
| Circuit Terminology | 00:03:00 | ||
| Kirchhoff’s Current Law (KCL) | 00:03:00 | ||
| Example – Kirchhoff’s Current Law (KCL) | 00:07:00 | ||
| Kirchhoff’s Voltage Law (KVL) | 00:07:00 | ||
| Example – Kirchhoff’s Voltage Law (KVL) | 00:04:00 | ||
| Voltage Division | 00:05:00 | ||
| Example – Voltage Division | 00:05:00 | ||
| Current Division | 00:06:00 | ||
| Example – Current Division | 00:06:00 | ||
| Series Resistors | 00:06:00 | ||
| Example – Series Resistors | 00:04:00 | ||
| Parallel Resistors | 00:08:00 | ||
| Example – Parallel Resistors | 00:05:00 | ||
| Series/Parallel Combination of Resistors | 00:04:00 | ||
| Example – Series/Parallel Combination of Resistors (1 of 3) | 00:06:00 | ||
| Example – Series/Parallel Combination of Resistors (2 of 3) | 00:08:00 | ||
| Example – Series/Parallel Combination of Resistors (3 of 3) | 00:10:00 | ||
| Example – Resistive Circuit Analysis (1 of 3) | 00:07:00 | ||
| Example – Resistive Circuit Analysis (2 of 3) | 00:09:00 | ||
| Example – Resistive Circuit Analysis (3 of 3) | 00:10:00 | ||
| Nodal Analysis of DC Resistive Electric Circuits | |||
| Definition of Nodal Analysis | 00:09:00 | ||
| Example – Nodal Analysis with Independent Sources | 00:12:00 | ||
| Example – Nodal Analysis with Dependent Sources | 00:13:00 | ||
| Loop Analysis of DC Resistive Electric Circuits | |||
| Definition of Loop Analysis | 00:12:00 | ||
| Example – Loop Analysis with Independent Sources | 00:11:00 | ||
| Example – Loop Analysis with Dependent Sources | 00:16:00 | ||
| Advanced DC Electric Circuit Analysis Techniques | |||
| Superposition Theorem | 00:04:00 | ||
| Example – Superposition Theorem | 00:04:00 | ||
| Thévenin’s Theorem | 00:03:00 | ||
| Example – Thévenin’s Theorem (Part 1) | 00:06:00 | ||
| Example – Thévenin’s Theorem (Part 2) | 00:06:00 | ||
| Norton’s Theorem | 00:08:00 | ||
| Example – Norton’s Theorem | 00:09:00 | ||
| Capacitors and Their Uses in Electric Circuits and Electronics | |||
| Definition of Capacitors | 00:02:00 | ||
| Charge in a Capacitor | 00:03:00 | ||
| Current Through a Capacitor | 00:02:00 | ||
| Voltage Across a Capacitor | 00:04:00 | ||
| Energy Stored in a Capacitor | 00:06:00 | ||
| Series Capacitors | 00:06:00 | ||
| Parallel Capacitors | 00:04:00 | ||
| Series/Parallel Combination of Capacitors | 00:03:00 | ||
| Inductors and Their Uses in Electric Circuits and Electronics | |||
| Definition of Inductors | 00:02:00 | ||
| Voltage Across an Inductor | 00:01:00 | ||
| Current Through an Inductor | 00:03:00 | ||
| Series Inductors | 00:03:00 | ||
| Parallel Inductors | 00:06:00 | ||
| Series/Parallel Combination of Inductors | 00:05:00 | ||
| First Order Transient Electric Circuits | |||
| First-Order Transient Circuits – Introduction | 00:07:00 | ||
| Series RC Circuits | 00:13:00 | ||
| Google Review | |||
| Google Review | 00:00:00 | ||
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